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eVQ-AM: An Extended Dynamic Version of Evolving Vector Quantization

  • Edwin Lughofer

Publikation: Beitrag in Buch/Bericht/KonferenzbandKonferenzbeitragBegutachtung

Abstract

In this paper, we are presenting a new dynamically evolving clustering approach which extends conventional evolving Vector Quantization (eVQ), successfully applied before as fast learning engine for evolving cluster models, classifiers and evolving fuzzy systems in various real-world applications. The first extension concerns the ability to extract ellipsoidal prototype-based clusters in arbitrary position, thus increasing its flexibility to model any orentiation/rotation of local data clouds. The second extension includes a single-pass merging strategy in order to resolve unnecessary overlaps or to dynamically compensate inappropriately chosen learning parameters (which may lead to over-clustering effects). The new approach, termed as eVQ-AM (eVQ for Arbitrary ellipsoids with Merging functionality), is compared with conventional eVQ, other incremental and batch learning clustering methods based on two-dimensional as well as high-dimensional streaming clustering showing an evolving behavior in terms of adding/joining clusters as well as feature range expansions. The comparison includes a sensitivity analysis on the learning parameters and observations of finally achieved cluster partition qualities
OriginalspracheEnglisch
TitelProceedings of the IEEE SSCI 2013 Conference
VerlagIEEE
Seiten40-47
Seitenumfang8
ISBN (Print)9781467358552
DOIs
PublikationsstatusVeröffentlicht - 2013

Publikationsreihe

NameIEEE SSCI 2013 Conference

Wissenschaftszweige

  • 101001 Algebra
  • 101 Mathematik
  • 102 Informatik
  • 101013 Mathematische Logik
  • 101020 Technische Mathematik
  • 102001 Artificial Intelligence
  • 102003 Bildverarbeitung
  • 202027 Mechatronik
  • 101019 Stochastik
  • 211913 Qualitätssicherung

JKU-Schwerpunkte

  • Computation in Informatics and Mathematics
  • Mechatronics and Information Processing
  • Nano-, Bio- and Polymer-Systems: From Structure to Function

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